CooLMUC-2:具有吸附冷却热回收的超级计算集群

T. Wilde, M. Ott, A. Auweter, I. Meijer, P. Ruch, Markus Hilger, Steffen Kühnert, Herbert Huber
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引用次数: 17

摘要

在高性能计算(HPC)中,无冷水机冷却已经取代了机械冷水机支持的冷却,从而降低了HPC系统的冷却成本。尽管如此,其他IT组件和IT系统仍然需要空气或冷水冷却。本文介绍了一种高温直接液冷(HT-DLC) HPC系统CooLMUC-2,该系统采用热回收方案驱动吸附制冷过程。在生产所需的冷水时,使用吸附式冷水机的效率至少是机械冷水机的两倍。到目前为止,这是唯一一个将Top500生产级高性能计算系统与吸附制冷相结合的数据中心安装的吸附制冷机。这个原型装置是迈向100%无机械冷却器数据中心的又一步。在对系统运行参数进行优化后,CooLMUC-2的吸附式制冷机耗电量仅为6kW多一点,不仅为超级计算机排出95kW的热量,还能产生50kW以上的冷水。本文介绍了CooLMUC-2在不同工况下热回收性能的初步测量结果。
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CooLMUC-2: A supercomputing cluster with heat recovery for adsorption cooling
In High Performance Computing (HPC), chiller-less cooling has replaced mechanical chiller supported cooling for a significant part of the HPC system resulting in lower cooling costs. Still, other IT components and IT systems remain that require air or cold water cooling. This work introduces CooLMUC-2, a high-temperature direct-liquid cooled (HT-DLC) HPC system which uses a heat-recovery scheme to drive an adsorption refrigeration process. Using an adsorption chiller is at least two times more efficient than a mechanical chiller for producing needed cold water. To this date this is the only installation of adsorption chillers in a data center combining a Top500 production level HPC system with adsorption refrigeration. This prototype installation is one more step towards a 100% mechanical chiller-free data center. After optimization of the operational parameters of the system, the adsorption chillers of CooLMUC-2 consume just over 6kW of electrical power to not only remove 95kW of heat from the supercomputer, but also to produce more than 50kW of cold water. This paper presents initial measurements characterizing the heat-recovery performance of CooLMUC-2 at different operating conditions.
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